eljose
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from the expression for a Fractional integral of arbitrary order:
D^{-r}=\frac{1}{\Gamma(r)}\int_c^xf(t)(x-t)^{r-1}
if we set r=-p then we would have for the Fractional derivative:
D^{p}=\frac{1}{\Gamma(-p)}\int_c^xf(t)(x-t)^{-(p+1)}
is my definition correct?..i mean if its correct to introduce the change of variable r=-p to obtain fractional derivative form fractional integral...
where \pi/{\Gamma(-p)}=\Gamma(p+1)sen(p+1)\pi
D^{-r}=\frac{1}{\Gamma(r)}\int_c^xf(t)(x-t)^{r-1}
if we set r=-p then we would have for the Fractional derivative:
D^{p}=\frac{1}{\Gamma(-p)}\int_c^xf(t)(x-t)^{-(p+1)}
is my definition correct?..i mean if its correct to introduce the change of variable r=-p to obtain fractional derivative form fractional integral...
where \pi/{\Gamma(-p)}=\Gamma(p+1)sen(p+1)\pi
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